Reader for optical indicia presented under two or more imaging conditions within a single frame time

ABSTRACT

The present invention embraces an optical indicia reader, e.g., barcode scanner, that captures images of optical indicia under multiple imaging conditions within the span of a single frame. The reader includes an image sensor having selectively-addressable pixels that can be divided into groups having regions of interest (ROIs) within the reader field of view. Each pixel group is shuttered separately to obtain independent partial frame images under separate imaging conditions.

FIELD OF THE INVENTION

The present invention relates to an optical indicia reading apparatus generally and particularly to an image based barcode reader for scanning and decoding either a barcode printed on a substrate or a barcode presented on an electronic display within a single frame time.

BACKGROUND

Optical indicia such as barcode symbols can be defined as optical machine-readable representations of data. Over the last several decades, various optical code symbologies have been created and incorporated into countless industrial, commercial, and residential applications. For example, the first commercially successful barcodes, Universal Product Codes (UPCs), were developed along with automated supermarket checkout systems. These systems included a laser-scanner barcode reader to read and decode UPC barcode symbols affixed to products to get the price for the each product. UPC symbols are considered to be a one-dimensional barcode in that data is encoded linearly across a series of parallel bars and spaces with varying widths. A moveable laser beam is operated to form a line across the width of a barcode symbol being read. The intensity of the light reflected back from the barcode symbol is captured via one or more photodiodes as a waveform having a series of peaks and valleys. After a full waveform is obtained by the barcode reader, the processor decodes the symbol to extract the data contained therein.

After widespread proliferation of UPC symbols, other types of linear barcodes were developed with many still in use today. Due to their simplicity and ease of reading, linear barcodes are particularly well suited for applications involving automated sorting and material handling, inventory management, quality control, shipping and receiving functions, especially at high volumes and/or speed. Linear barcodes, however, only hold a limited amount of data or information.

To overcome the data limitations of one-dimensional barcodes, two-dimensional (2D) barcode symbols and image-based readers to read and decode them, were subsequently developed. Examples of two-dimensional barcode symbols include matrix codes (QR, Data Matrix, etc.) and stacked barcodes (e.g., PDF-417). Both one-dimensional and two-dimensional barcodes, along with other machine-readable indicia such as alpha-numeric characters, are generally referred to as optical codes.

Newer image based optical code readers use a complementary metal oxide semiconductor (CMOS)-based camera sensor with an array of pixels having a field of view. In use, images, or frames, from the field of view are obtained by the camera at a preset rate. The readers have an illuminator, typically one or more LEDs, and an electronic shutter mechanism that can be adjusted to obtain sufficiently clear and bright images. Images are processed with various algorithms to identify and decode optical indicia including 1D and 2D barcodes within the reader's field of view.

Images acquired with optical code reader are referred to generally as a frame. All video and still-frame cameras have a frame rate, or imaging speed, given in units of frames per second (fps). Many barcode readers operate at a speed, or frame rate, of sixty (60) frames per second. An image sensor in such a reader obtains a full image frame every 1/60 of a second, or roughly every 16.67 milliseconds. After a full frame has been exposed, the charge of each pixel is shifted out to a memory unit and processed collectively into a single image.

Recent advancements in barcode technology include the development of digital barcodes, i.e., one- and two-dimensional barcode symbols generated and presented electronically on high-resolution display screens of smart phones, computers, and other portable electronic devices. Digital barcodes have found acceptance in applications such as electronic coupons, paperless airline tickets, and other applications and can be delivered to consumers via email, websites, and television advertising. Despite the widespread and growing use of digital barcodes, many image based barcode scanners cannot reliably read digital barcodes due to the highly reflective display screens on most electronic devices. Barcodes printed on paper or other physical media are best read with a single illumination pulse and a relatively short exposure period while barcodes presented on a backlit display are best read with no illumination and a relatively longer exposure period.

With the wide variety of scanning applications, including instances in which either printed or digital barcodes may be presented to a reader, one frame and a single illumination flash, may not reliably produce an optimal, i.e., decodable, image. To cover both possibilities, existing barcode readers inherently require two or more frames, one obtained under optimal conditions for digital barcodes and one obtained under optimal conditions for printed barcodes. This results in the need to off-load and evaluate multiple frames. This approach is inherently slow due to the increased time needed to obtain multiple images, even if only two frames are needed to produce a readable barcode image. If both possibilities could be covered in the same frame, the speed to obtain a readable image of either type of barcode would be faster.

Therefore, a need exists for an image based optical code reader able to read barcode symbols presented under more than one set of exposure and illumination conditions within a single frame. If multiple conditions can be applied during a single frame, the number of frames needed to obtain a decodable barcode image may be reduced to a single frame if either a printed or a digital barcode is presented to the reader.

SUMMARY

Accordingly, in one aspect, the present invention embraces an optical indicia reader capable of reading optical indicia using images obtained under two or more optimized imaging conditions within a single frame. The optical indicia reader includes an image sensor having a plurality of selectively addressable pixels for obtaining image data from a field of view of the reader. The reader also includes an illuminator for illuminating objects within the reader's field of view and a processor. The processor may control the reader to expose two or more pixel groups of the image sensor to obtain a multiple partial frame images within a single frame time of the reader.

In an exemplary embodiment, the illuminator provides separate illumination profiles while exposing two pixel groups. The image settings for the first pixel group may be optimized for obtaining an image of optical indicia printed on a physical substrate. As such, a single illumination pulse is directed to the reader's field of view during the exposure of the first pixel group. The image settings for the second pixel group may be optimized for optical indicia digitally displayed on an electronic device in which no active illumination of the reader field of view is provided during the exposure of the second group of pixels. The exposure periods for the first and second group of pixels occur within a single frame time to provide independent partial frame images of each region in the field of view. The processor processes the first and second partial frames of image data to identify and decode optical indicia presented under two or more optimized imaging conditions within a single frame time.

In an alternative embodiment, the imaging conditions for each partial frame of image data can be optimized for the same type of optical indicia. In another alternative embodiment, partial frame images may be interlaced with overlapping regions of the reader field of view

In another aspect, the present invention embraces an image based barcode scanner able to read a barcode symbol presented under two or more imaging conditions with a single frame of image data. The barcode scanner includes an image sensor with an array individually addressable pixels and an electronic shutter mechanism. The pixels are logically divided between two pixel groups and the electronic shutter mechanism separately exposes the first and second pixel groups to obtain independent partial frames of image data.

The barcode scanner also includes an illuminator able to provide varying levels of illumination to barcode symbols in the reader's field of view. The barcode scanner further includes a processor configured by software to perform steps including setting optimized image settings for the first and second pixel groups. One pixel group may have image settings optimized for reading paper printed barcode symbols while another pixel group may have image settings optimized for reading digital barcodes.

The processor may process the partial frame images to identify and decode either paper-printed or digital barcodes visually depicted therein.

The foregoing illustrative summary, as well as other exemplary objectives and/or advantages of the invention, and the manner in which the same are accomplished, are further explained within the following detailed description and its accompanying drawings.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1 is a block diagram of an image based barcode reader in accordance with an embodiment of the present invention.

FIGS. 2a and 2b illustrate an embodiment of the barcode reader of FIG. 1 configured to independently illuminate and expose two or more regions in a field of view within a single frame time.

FIG. 3 is a flow chart illustrating a process for operating the barcode reader of FIG. 1 to read printed or digital barcode symbols within the timing of a single frame by independently illuminating and exposing two or more regions.

FIG. 4 is a flow chart illustrating a step of the process of FIG. 3 in greater detail.

FIG. 5 is an exemplary timing diagram for an image sensor of the barcode reader of FIG. 1 showing independent illumination and exposure of two regions within a single frame time.

DETAILED DESCRIPTION

The present invention embraces an image based optical indicia reader, such as a barcode scanner, operable to successfully read barcode symbols regardless of form (and optimum illumination and exposure requirements) within the timing of a single frame. Image sensors in traditional barcode scanners utilize global shutters to expose all pixels simultaneously, resulting in one image per frame. Often, two or more frames, each exposed under distinct illumination conditions, are needed to obtain readable images of barcode symbols. The present barcode scanner includes an image sensor with an electronic shutter mechanism that enables two or more regions of interest (ROI) to be illuminated and exposed separately and independently within the timing of a single frame.

One embodiment of a barcode reader according to the present invention includes an image sensor having separately addressable pixels. Pixels are grouped together to produce images from sub-, or partial, frames of image data. Another embodiment of the barcode reader includes an image sensor with a spatially programmable shutter. The shutter is used to create regional shutters that open and close at different times to independently expose two or more regions. In both embodiments, two or more independent images are obtained with partial frames obtained within the timing of a single frame. The electronic gain of the sensor may also be adjusted along with the illumination and exposure settings. As such, each partial frame may be obtained under independent illumination, exposure, and/or gain settings.

The barcode reader further includes an illuminator, user interface with display, and a memory unit operatively coupled to, and controlled by, a processor. The processor is configured by software to capture partial frame images from a field of view and process them to identify and decode barcode symbols contained therein.

The illuminator includes an active light source such as one or more LEDs to provide direct illumination of a region of the field of view. Illumination settings and exposure periods for each partial frame may be optimized using ideal imaging parameters for either printed or digital barcode symbols. The electronic shutter mechanism controls the start time and duration of each partial frame exposure. The illuminator controls the illumination provided for each partial frame. By obtaining two (or more) images of a barcode under different imaging conditions within the timing of a single frame, the barcode reader is more likely to be able to read and decode a barcode symbol, regardless of whether it is on printed on a physical media or digitally presented on an electronic device.

After each frame time, the full frame of image data, consisting of the accumulated charge from the partial frame-exposed pixels is shifted out to a memory unit or processor and reset. Signal processing on the partial frame images is used to identify and decode barcode symbols from the field of view. Data received from decodable barcodes may be stored in the memory unit and used by the processor.

FIG. 1 depicts a block diagram of an exemplary optical indicia reader, i.e., barcode scanner 100, constructed in accordance with the present disclosure. The barcode scanner 100 includes a processor 102, memory unit 104, illuminator 106, image sensor 108, and a user interface 110 having a visual display 112. The barcode reader 100 may include other components such as a system bus 114 and interface circuits (not shown) for coupling the processor 102 and the other components to the system bus 114.

The processor 102 is configured to execute instructions and control various tasks related to the operation of the reader 100. For example, the processor 102 may control the reception and manipulation of input and output data between the components of the reader 100. The processor 102 typically has an operating system to execute instructions, such as for producing and using data from images obtained with the image sensor 108. The operating system, software modules, and image data may reside within the memory unit 104 that is operatively connected to the processor 102. The memory unit 104 generally provides a place to store computer code and data from barcode symbols decoded by the code reader 100.

The processor 102 may utilize numerous software modules, or algorithms, to execute routines related to scanning and decoding barcode symbols under various imaging conditions. The processor 102 may further utilize one or more barcode detection and analysis modules 116 to locate and identify barcode symbols found in the partial frame images from regions of the field of view 118.

The processor 102 may also utilize a timing module 124 to enable independent control of the start and stop of the exposure and illumination associated with each partial frame. The exposure and the timing and intensity of the illumination during each partial frame may be set in accordance with known standards for either printed or digitally displayed barcode symbols. In one embodiment, the exposure periods for each partial frame are set in a sequential, non-overlapping order to ensure that the pixels associated with each partial frame are exposed and illuminated independently though still within the timing of a single frame.

In operation, a trigger or other actuator may signal the processor 102 to acquire a first partial frame image from a region of the field of view in which a barcode symbol may be present. The processor 102 may employ image processing algorithms to locate, identify, and decode any barcode symbols found in the image.

Referring now also to FIGS. 2a and 2b , barcode scanner 100 is shown as a handheld device with a field of view 118 that may include a printed barcode symbol 120 as part of a paper label 122. The field of view 118 may alternatively include a digital barcode symbol 130, presented on a backlit display screen 132 of an electronic device 134 such as smart phone. For illustrative purposes only, in FIG. 2a , the printed barcode 120 is shown as a one-dimensional barcode while in FIG. 2b , the digital barcode 130 is shown as a two-dimensional barcode. Alternatively, the printed barcode symbol 120 may be a two-dimensional barcode and the digital barcode symbol 130 may be a one-dimensional barcode.

The illuminator 106 provides a reflective or direct light source for the image sensor 108 to obtain a suitable image of a paper printed barcode symbol 120. Preferred illumination for a printed barcode symbol 120 includes a single strobe or pulse during the exposure period. In various embodiments, the illuminator 106 may comprise LEDs (e.g., white, colored, infrared, ultraviolet, etc.), lasers, halogen lights, arc lamps, incandescent bulbs, or any other light source capable of producing sufficiently intense lighting. The illumination settings for each partial frame may be adjusted to ensure clear, machine-readable barcode images are obtained with a short exposure time. If the illumination settings for printed barcode symbols 120 are used on digital barcode symbols 130, the resulting images are usually unreadable due to light reflected by the display screens 132.

An exemplary illumination profile for a barcode presented on an electronic device includes a relatively long, e.g., 10 milliseconds, period. The preferred illumination setting is a ‘pulse-off’ mode that keeps the illuminator off during the entire exposure period so that the digital barcode symbol 130 is only illuminated via backlighting from the display. Without active illumination such as a flash, the reader 100 is able to obtain computer-readable images of digital barcodes 130.

The user interface 110 may include one or more components capable of interacting with a user (e.g., receiving information from a user, outputting information to a user, etc.). The visual display 112 may be a touchscreen capable of displaying visual information and receiving tactile commands from a user (e.g., selections made by touching the screen with a finger, by pointing at a desired selection, etc.). The user interface system 110 may also include one or more speakers, buttons, keyboards, and/or microphones.

The image sensor 108 is preferably a CMOS-based camera/imager with an array 140 of photosensitive elements (i.e., pixels) providing a field of view 118 for the reader 100. In an exemplary barcode reader with a camera speed of sixty frames per second (60 fps), the image sensor 108 produces a full image frame approximately every 16.67 milliseconds. The image sensor 108 includes an electronic shutter mechanism 142 operable to control and limit the exposure of the pixels 140.

One embodiment of the image sensor 108 of the present disclosure provides a sub-frame imaging mode in which the pixels 140 are selectively divided into two or more groups that are independently controlled to create partial image frames. Each partial frame may contain separate images for adjacent regions of interest within the field of view 118 or interlaced images for overlapping regions. In either scenario, the start and stop times for the exposure of each pixel group is independently controlled. After the two or more groups of pixels have been exposed, the accumulated charges for the pixel array 140 are simultaneously shifted and read out to the memory unit 104 or processor 102. The accumulated charges, representing two or more images from the barcode reader field of view 118 may undergo various signal processing routines to obtain data encoded by the barcodes.

FIG. 3 is a flow chart illustrating an embodiment of a process 200 for reading either a printed or a digital barcode symbol within a single frame time. Step 202 includes providing a barcode reader with an image sensor and electronic shutter mechanism operable to independently expose two or more pixel groups within a single frame. The image sensor provides partial frame images corresponding to regions within the field of view 118 of the barcode reader 100. Illumination parameters and exposure times for each partial frame image may be adjusted based on the form of the barcode expected therein such as printed and digital barcodes.

In step 206, groups of pixels are selectively assigned to form partial frames associated with each region. Regions may be interlaced, allowing for interpolation between the regions and expanding the dynamic range of the image sensor. The regions may otherwise be separate from each other though still within the field of view 118. Overlapping regions may also be employed by the barcode reader 100.

As already described, image parameters of each region, including illumination duration and intensity and the exposure period, may be set to optimal imaging parameters for either printed or digital barcode symbols. One partial frame may be set for a short, i.e., less than a millisecond, illumination pulse with a slightly longer exposure period for a printed barcode symbol. A second partial frame may have parameters set for a printed barcode symbol or for a digital barcode symbol. Said differently, the illumination and exposure settings for both regions may be optimized for paper barcodes (or for digital codes). The ability to produce multiple independent images within a single frame is a more efficient means to successfully scan and decode barcode symbols.

In step 208, the start and stop times for the exposure and the illumination profile for the two or more partial frames are independently set. In some instances, the regions may be illuminated and exposed at separate and distinct times within the single frame. Such a setting may be utilized to ensure that illumination needed for the imaging of one barcode symbol does not interfere with the imaging of a different type of barcode symbol. In other instances, the exposure and/or illumination of the regions may overlap.

In step 210, discussed in greater detail with respect to FIG. 4, the barcode reader 100 obtains independently exposed partial frame images from the field of view 118 within a single frame time. Imaging parameters, including illumination intensity and duration and pixel exposure time, are independently set for each region. Optimized imaging parameters for a printed and a digital barcode symbol are set in separate regions. The barcode reader 100 thus obtains, within each frame time, one image taken under optimized imaging conditions for printed barcodes and another image taken under optimized imaging conditions for digital barcodes. With this capability, the barcode scan time is minimized by eliminating the need to determine the barcode type or to use two or more frames in order to obtain a sufficiently clear, i.e., machine-readable, image when performing a scanning operation.

The barcode reader 100 may be operated with two regions having the same or similar optimum imaging parameters for the same type of barcode, such as for a printed barcode. In this mode, the barcode reader 100 is able to obtain two independent images of the same barcode symbol in one frame time, effectively doubling the camera speed. Two or more images of a barcode symbol obtained within a single frame time can be analyzed to improve the likelihood of a successful decode. It is also contemplated that the barcode reader 100 may scan and decode two barcode symbols located within the field of view 118 within the timing of a one frame even with one digital barcode and one printed barcode.

In step 212, the charges in the entire pixel array 140, representing two or more partial frame images is shifted and read out to the processor 102 or memory unit 104. The images obtained by the image sensor 108 may be interlaced images from the same ROI, separate images from different ROIs, or a combination of both in the case of overlapping ROIs. In step 214, the images are processed to identify and decode a barcode symbol in at least one of the partial frame images.

FIG. 4 is a flow chart illustrating an embodiment of step 210 of the process 200 for obtaining two or more independent images with the barcode reader 100 within a single frame time. In step 220, the exposure period for the pixel group associated with the first region commences. In step 222, the field of view 118 including the first region of interest is illuminated in accordance with optimized imaging parameters for one type, e.g., paper printed, of barcode symbol. In step 224, the exposure of the pixel group associated with the first region ends. In step 226, the charged pixels associated with the first partial frame image are shielded from further exposure for the remainder of the frame time, thereby creating a first partial frame image.

In step 228, the exposure period for the pixels associated with the second region of interest commences. In step 230, the field of view 118 is illuminated in accordance with the optimized imaging parameters of another type, digital, of barcode symbol. In step 232, the exposure period for the pixels associated with the second partial frame ends.

In an exemplary operation, the barcode reader 100 may be positioned to bring a paper-printed barcode 120 within the field of view 118. Upon a predetermined triggering action, the imaging process 200 is executed within a single frame time. Within that time, pixels groups associated with a first and second region are independently exposed for preset lengths of times to create a first and second partial frame. While each pixel group is being exposed, the field of view 118 may be illuminated in accordance with the optimized imaging settings associated with each region. The start and stop times for the exposure of each pixel group are separately controlled so as to prevent, for example, illumination needed to obtain an image of a printed barcode from affecting the exposure of an image of a digital barcode. After one barcode has been successfully read within a single frame time, the same process may be repeated with a different barcode that will also be successfully read within a subsequent frame time.

Referring now also to FIG. 5, an illustrated timing diagram 150 of an exemplary embodiment of step 210 in process 200 for scanning either a printed barcode 120 or a digital barcode 130 within a single frame time is shown. During the scanning operation, barcode reader 100 begins executing a scanning and decoding application after processor 102 receives a trigger signal. The processor 102 utilizes timing module 124 to produce timing control signals used during the imaging process 200 to start and stop exposures for each partial frame image. In one embodiment, pixels associated with a first region start an exposure period in response to an ‘on’ state 154 of a first exposure timing signal 152. During the exposure period of the first partial frame image, illuminator 106 may be activated in response to an illumination ‘on’ portion 158 of an illumination timing control signal 166. The illuminator 106 may be controlled so as to produce a short light pulse that briefly illuminates the field of view 118 and items located therein. The pulsed illumination of the first region may be less than one millisecond (1 ms) in accordance with ideal imaging parameters for printed barcode symbols 120. The light reflected back from the printed barcode 120 is captured by the first pixel group to form the first partial frame image.

In the illustrative timing diagram 150, the illuminator 106 may be activated in response to an illumination ‘off’ portion 160 after the exposure period of the first region has ended. In this manner, the images obtained from the first region are not affected by possible illumination provided for the second region. The electronic shutter mechanism 140 is again activated in response to an ‘on’ state 162 of a second exposure timing signal 168 to begin exposing the pixel group associated with the second region. The timing diagram 150 of FIG. 5 illustrates optimized exposure and illumination settings for a printed barcode and a digital barcode. The full frame, made up of the two partial frame images, is shifted to the memory unit 104 after a pulse 164 in a read out signal 170 is detected by the processor 102. Barcode identification, pattern recognition, and decoding applications may then be utilized to obtain the data represented by each code. The exemplary frame time in FIG. 5 is based on a barcode scanner with a sixty frames per second (60 fps) speed, though other frame rates may be suitable.

Paper barcodes are typically read in less than one millisecond to a few (˜3, 4, or 5) milliseconds depending on factors such as the type of paper, print quality, reading distance, and the amount of light produced by the scanner LEDs. A digital barcode displayed on a typical cell phone can usually be read with about ten milliseconds of exposure in order to gain sufficient light. Image sensors and barcode scanners according to aspects of the present invention provide two or more independent exposures within a single frame, providing increased efficiency and scan aggressiveness.

To supplement the present disclosure, this application incorporates entirely by reference the following commonly assigned patents, patent application publications, and patent applications:

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In the specification and/or figures, typical embodiments of the invention have been disclosed. The present invention is not limited to such exemplary embodiments. The use of the term “and/or” includes any and all combinations of one or more of the associated listed items. The figures are schematic representations and so are not necessarily drawn to scale. Unless otherwise noted, specific terms have been used in a generic and descriptive sense and not for purposes of limitation. 

1.-21. (canceled)
 22. A method comprising: illuminating, an optical indicia, located in a field of view of an optical reader; selectively obtaining, by plurality of pixels of an image sensor, image data from the field of view of the optical reader; exposing a first group of pixels, from amongst the plurality of pixels of the image sensor to obtain a first partial frame of the image data, from a first region of interest, in the field of view, wherein exposing the first group of pixels has a first group start time and a first group end time; exposing, separately from the first group of pixels, a second group of pixels, from amongst the plurality of pixels, of the image sensor, to obtain a second partial frame of the image data, from a second region of interest, in the field of view, wherein exposing the second group of pixels has a second group start time and a second group end time; and wherein the first partial frame and the second partial frame of the image data are obtained within a single frame time, and wherein the first group start time and the first group end time are different from the second group start time and the second group end time.
 23. The method of claim 22, further comprising: providing a first illumination profile and a second illumination profile by an illuminator while exposing of the first group of pixels and the second group of pixels.
 24. The method of claim 23, wherein the first illumination profile and the second illumination profile are different from each other.
 25. The method of claim 24, wherein one of the first illumination profile or the second illumination profile is a single illumination pulse.
 26. The method of claim 24, wherein one of the first illumination profile or the second illumination profile does not include an illumination pulse.
 27. The method of claim 24, further comprising: exposing the first group of pixels during a first exposure period defined by the first group start time and the first group end time, and exposing the second group of pixels during a second exposure period defined by the second group start time and the second group end time.
 28. The method of claim 27, wherein the first exposure period and the second exposure period partially overlap within the single frame time.
 29. The method of claim 27, wherein the first exposure period and the second exposure period occur sequentially within the single frame time.
 30. The method of claim 27, wherein the first illumination profile and the first exposure period for the first group of pixels is optimized for reading optical indicia printed on a physical substrate.
 31. The method of claim 30, wherein the second illumination profile and the second exposure period for the second group of pixels is optimized for reading electronically displayed optical indicia.
 32. The method of claim 22, wherein the plurality of pixels are selectively addressable.
 33. The method of claim 22, wherein at least a portion of the first region of interest and the second region of interest are interlaced.
 34. The method of claim 33, wherein the first region of interest and the second region of interest are not interlaced.
 35. The method of claim 22, further comprising: processing the first partial frame of the image data and the second partial frame of the image data to identify and decode at least one optical indicia visually depicted therein.
 36. A method of capturing images under two or more separate imaging conditions within a single frame time by an optical reader, the method comprising: splitting, plurality of addressable pixels of an image sensor, between a first group of pixels and a second group of pixels, illuminating, optical indicia located in a field of view of the optical reader; exposing the first group of pixels and the second group of pixels, separately, to obtain partial frames of image data respectively; configuring imaging settings for the first group of pixels to a first predetermined scanning mode optimized for reading optical indicia presented in one form, configuring imaging settings for the second group of pixels to a second predetermined scanning mode optimized for reading optical indicia presented in at least one indicia another form, and wherein imaging settings for each of the first and second predetermined scanning modes include an exposure period, and wherein the exposure period for the first predetermined scanning mode having a different start time and end time from the exposure period for the second predetermined scanning mode.
 37. The method of claim 36, wherein the first predetermined scanning mode includes imaging settings optimized for reading optical indicia printed on a physical substrate and the second predetermined scanning mode includes imaging settings optimized for reading optical indicia digitally displayed with an electronic device.
 38. The method of claim 37, wherein the imaging settings of the first predetermined scanning mode includes a single illumination pulse directed to the field of view.
 39. The method of claim 38, wherein the imaging settings for the second predetermined scanning mode include an exposure period for the second group of pixels having a start time after the first group of pixels has received reflected light from the single illumination pulse.
 40. The method of claim 36, further comprising: processing each of the partial frames of image data to identify and read optical indicia from at least one of the images obtained with optimized image settings.
 41. A method for scanning and decoding a plurality of indicia including at least one of paper printed and digital barcodes, with a single frame of image data obtained from a field of view of an optical reader, the method comprising: splitting, a plurality of addressable pixels in an image sensor into two or more group of pixels with regions of interest in the field of view; illuminating, an object including at least one indicia, in the field of view of the optical reader with varying intensity and duration; exposing the two or more group of pixels separately to obtain partial frames of image data; configuring imaging settings for a first group of pixels to a first predetermined scanning mode optimized for reading paper barcodes, configuring imaging settings for a second group of pixels to a second predetermined scanning mode optimized for reading digital barcodes, and wherein imaging settings for each of the first and second predetermined scanning modes include an exposure period, and wherein the exposure period for the first predetermined scanning mode having a different start time and end time from the exposure period for the second predetermined scanning mode. 